Showing posts with label Low-Power. Show all posts
Showing posts with label Low-Power. Show all posts

Apr 15, 2024

[course] MEAD @ EPFL

Live Course @ EPFL, Lausanne, Switzerland
JUNE 17-21, 2024

Registration Deadline: May 17, 2024 >> REGISTER

MONDAY, June 17

8:30 am-12:00 pmMOS Transistor Modeling for Low-Voltage and Low-Power Circuit DesignChristian Enz
1:30-5:00 pmDesign of Low-Power Analog Circuits using the Inversion CoefficientChristian Enz

TUESDAY, June 18

8:30 am-12:00 pmNoise Performance of Elementary Circuit BlocksBoris Murmann
1:30-5:00 pmOpamp Topologies and Design FundamentalsBoris Murmann

WEDNESDAY, June 19

8:30-10:00 amLow-Power High Efficiency OpAmp DesignKlaas Bult
10:30 am-12:00 pmLow-Power High Efficiency Residue AmplifiersKlaas Bult
1:30-3:00 pmAnalog Design Methodology and Practical Techniques for Frequency CompensationVadim Ivanov
3:30-5:00 pmEnergy Efficient Voltage References, Biasing in Analog Systems and Current SourcesVadim Ivanov

THURSDAY, June 20

8:30-10:00 amPower Dissipation in ADC Buidling BlocksKlaas Bult
10:30 am-12:00 pmPower Dissipation in ADCsKlaas Bult
1:30-5:00 pmMicropower ADCsKofi Makinwa

FRIDAY, June 21

8:30 am-12:00 pmEnergy Efficient Sensor InterfacesTaekwang Jang
1:30-5:00 pmLow-Power Frequency Reference CircuitsTaekwang Jang
1:30-5:00 pmPower Management With Nanoampere Consumption and Efficient Energy HarvestingVadim Ivanov

Sep 17, 2021

[paper] EKV Model for Bulk-Driven Circuit Design Using gmb/ID Method

Lukas Nagy, Daniel Arbet, Martin Kovac, Miroslav Potocny, Robert Ondica and Viera Stopjakova
EKV Model for Bulk-Driven Circuit Design Using gmb/ID Method
IEEE AFRICON; 13-15 September 2021; Arusha (TZ)
 
Institute of Electronics and Photonics; Faculty of Electrical Engineering and Information Technology; Slovak University of Technology; Bratislava (SK)

Abstract: The paper addresses a development and application of EKV MOS transistor compact model with focus on the ultra low-voltage / ultra low-power analog integrated circuit (IC) design employing bulk-driven (BD) technique. The presented contribution can be viewed as an extension of standard EKV model application and as a contribution to ultra low-voltage IC design techniques. The paper compares the measured and extracted small-signal parameters of standalone transistor samples fabricated in 130 nm CMOS technology and the simulation results obtained using the proposed bulk-driven EKV v2.63 model and foundry-provided BSIM model v3.3. The transistor samples were analyzed with power supply of VDD = 0.4 V The paper also discusses the implementation of 3D graphs as a result of introducing another degree of freedom into the essential MOS transistor characteristics, while maintaining the ease of using the design hand-calculation with the original gm/ID approach.

Fig: Bulk-Driven TEF vs Inversion Coefficient – gmb/ID

Acknowledgment: This work has been supported in part by the Slovak Research and Development Agency under grant APVV 19-0392, the Ministry of Education, Science, Research and Sport of the Slovak Republic under grants VEGA 1/0731/20 and VEGA 1/0760/21, and ECSEL JU under project PROGRESSUS (Agr. No. 876868)